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    • 2. 发明授权
    • Time reverse reservoir localization
    • 时间反向油藏定位
    • US07675815B2
    • 2010-03-09
    • US12017527
    • 2008-01-22
    • Erik SaengerBrian SteinerStefan Schmalholz
    • Erik SaengerBrian SteinerStefan Schmalholz
    • G01V1/00
    • G01V1/28G01V1/301G01V2210/123G01V2210/51G01V2210/67G01V2210/679
    • A method and system for processing synchronous array seismic data includes acquiring synchronous passive seismic data from a plurality of sensors to obtain synchronized array measurements. A reverse-time data process is applied to the synchronized array measurements to obtain a plurality of dynamic particle parameters associated with subsurface locations. These dynamic particle parameters are stored in a form for display. Maximum values of the dynamic particle parameters may be interpreted as reservoir locations. The dynamic particle parameters may be particle displacement values, particle velocity values, particle acceleration values or particle pressure values. The sensors may be three-component sensors. Zero-phase frequency filtering of different ranges of interest may be applied. The data may be resampled to facilitate efficient data processing.
    • 用于处理同步阵列地震数据的方法和系统包括从多个传感器获取同步的被动地震数据以获得同步的阵列测量。 将反向时间数据处理应用于同步阵列测量以获得与地下位置相关联的多个动态粒子参数。 这些动态粒子参数存储在一个表单中进行显示。 动态粒子参数的最大值可以解释为储层位置。 动态粒子参数可以是粒子位移值,粒子速度值,粒子加速度值或粒子压力值。 传感器可以是三分量传感器。 可以应用不同感兴趣范围的零相位频率滤波。 可以重新采样数据以促进有效的数据处理。
    • 3. 发明授权
    • Time reverse reservoir localization
    • 时间反向油藏定位
    • US08068384B2
    • 2011-11-29
    • US12719984
    • 2010-03-09
    • Erik SaengerBrian SteinerStefan Schmalholz
    • Erik SaengerBrian SteinerStefan Schmalholz
    • G01V1/00
    • G01V1/28G01V1/301G01V2210/123G01V2210/51G01V2210/67G01V2210/679
    • A method and system for processing synchronous array seismic data includes acquiring synchronous passive seismic data from a plurality of sensors to obtain synchronized array measurements. A reverse-time data process is applied to the synchronized array measurements to obtain a plurality of dynamic particle parameters associated with subsurface locations. These dynamic particle parameters are stored in a form for display. Maximum values of the dynamic particle parameters may be interpreted as reservoir locations. The dynamic particle parameters may be particle displacement values, particle velocity values, particle acceleration values or particle pressure values. The sensors may be three-component sensors. Zero-phase frequency filtering of different ranges of interest may be applied. The data may be resampled to facilitate efficient data processing.
    • 用于处理同步阵列地震数据的方法和系统包括从多个传感器获取同步的被动地震数据以获得同步的阵列测量。 将反向时间数据处理应用于同步阵列测量以获得与地下位置相关联的多个动态粒子参数。 这些动态粒子参数存储在一个表单中进行显示。 动态粒子参数的最大值可以解释为储层位置。 动态粒子参数可以是粒子位移值,粒子速度值,粒子加速度值或粒子压力值。 传感器可以是三分量传感器。 可以应用不同感兴趣范围的零相位频率滤波。 可以重新采样数据以促进有效的数据处理。
    • 4. 发明申请
    • Time Reverse Reservoir Localization
    • 时间反向油藏定位
    • US20080175101A1
    • 2008-07-24
    • US12017527
    • 2008-01-22
    • Erik SaengerBrian SteinerStefan Schmalholz
    • Erik SaengerBrian SteinerStefan Schmalholz
    • G01V1/28
    • G01V1/28G01V1/301G01V2210/123G01V2210/51G01V2210/67G01V2210/679
    • A method and system for processing synchronous array seismic data includes acquiring synchronous passive seismic data from a plurality of sensors to obtain synchronized array measurements. A reverse-time data process is applied to the synchronized array measurements to obtain a plurality of dynamic particle parameters associated with subsurface locations. These dynamic particle parameters are stored in a form for display. Maximum values of the dynamic particle parameters may be interpreted as reservoir locations. The dynamic particle parameters may be particle displacement values, particle velocity values, particle acceleration values or particle pressure values. The sensors may be three-component sensors. Zero-phase frequency filtering of different ranges of interest may be applied. The data may be resampled to facilitate efficient data processing.
    • 用于处理同步阵列地震数据的方法和系统包括从多个传感器获取同步的被动地震数据以获得同步的阵列测量。 将反向时间数据处理应用于同步阵列测量以获得与地下位置相关联的多个动态粒子参数。 这些动态粒子参数存储在一个表单中进行显示。 动态粒子参数的最大值可以解释为储层位置。 动态粒子参数可以是粒子位移值,粒子速度值,粒子加速度值或粒子压力值。 传感器可以是三分量传感器。 可以应用不同感兴趣范围的零相位频率滤波。 可以重新采样数据以促进有效的数据处理。
    • 5. 发明授权
    • V-channel packing arrangements particularly for windshields
    • US06769548B2
    • 2004-08-03
    • US10193888
    • 2002-07-12
    • Ramon B. MorellBrian Steiner
    • Ramon B. MorellBrian Steiner
    • B65D8102
    • B65D5/5064B65D85/48
    • A packing structure supports an article in a carton, especially a generally trapezoidal vehicle windshield, to be shipped in a corrugated craft carton. The article (possibly a windshield) is suspended by spacers, preferably made of integral die cut and folded blanks, that form resilient cradles along the elongated edge of the article. The carton can be rectilinear, having at each end two spaced side walls coupled by an end wall, generally forming an internal channel portion of the carton, with corners at junctions of the end wall and the side walls. A spacer is arranged to fit into this channel, so as to bear against the sidewalls and the end wall. The spacer defines an elongated substantially V-shaped fold between two V-wall panels. The edge of the article rests in a bottom of the V-shaped fold. The spacer also has two bearing legs that can be coextensive with the V-wall panels. These legs stand in the corners of the internal channel of the carton. Spacers can be provided on two or four ends in opposed pairs. The pairs on the ends can be tapered for a trapezoidal windshield shape. A compression resistant pad can reinforce the bottom spacer. The top spacer can be placed under fillers so as to engage the article from all sides without undue clearance.
    • 8. 发明授权
    • Time reverse reservoir localization
    • 时间反向油藏定位
    • US08451685B2
    • 2013-05-28
    • US13244615
    • 2011-09-25
    • Erik SaengerBrian SteinerStefan Schmalholz
    • Erik SaengerBrian SteinerStefan Schmalholz
    • G01V1/00
    • G01V1/28G01V1/301G01V2210/123G01V2210/51G01V2210/67G01V2210/679
    • A method and system for processing synchronous array seismic data includes acquiring synchronous passive seismic data from a plurality of sensors to obtain synchronized array measurements. A reverse-time data process is applied to the synchronized array measurements to obtain a plurality of dynamic particle parameters associated with subsurface locations. These dynamic particle parameters are stored in a form for display. Maximum values of the dynamic particle parameters may be interpreted as reservoir locations. The dynamic particle parameters may be particle displacement values, particle velocity values, particle acceleration values or particle pressure values. The sensors may be three-component sensors. Zero-phase frequency filtering of different ranges of interest may be applied. The data may be resampled to facilitate efficient data processing.
    • 用于处理同步阵列地震数据的方法和系统包括从多个传感器获取同步的被动地震数据以获得同步的阵列测量。 将反向时间数据处理应用于同步阵列测量以获得与地下位置相关联的多个动态粒子参数。 这些动态粒子参数存储在一个表单中进行显示。 动态粒子参数的最大值可以解释为储层位置。 动态粒子参数可以是粒子位移值,粒子速度值,粒子加速度值或粒子压力值。 传感器可以是三分量传感器。 可以应用不同感兴趣范围的零相位频率滤波。 可以重新采样数据以促进有效的数据处理。
    • 9. 发明授权
    • Time reverse reservoir localization with borehole data
    • 时间反向油藏定位与钻孔数据
    • US08179740B2
    • 2012-05-15
    • US13244601
    • 2011-09-25
    • Erik SaengerBrian SteinerStefan Schmalholz
    • Erik SaengerBrian SteinerStefan Schmalholz
    • G01V1/00
    • G01V1/28G01V1/301G01V2210/123G01V2210/51G01V2210/67G01V2210/679
    • A method and system for processing synchronous array seismic data includes acquiring synchronous passive seismic data from a plurality of sensors to obtain synchronized array measurements. A reverse-time data process is applied to the synchronized array measurements to obtain a plurality of dynamic particle parameters associated with subsurface locations. These dynamic particle parameters are stored in a form for display. Maximum values of the dynamic particle parameters may be interpreted as reservoir locations. The dynamic particle parameters may be particle displacement values, particle velocity values, particle acceleration values or particle pressure values. The sensors may be three-component sensors. Zero-phase frequency filtering of different ranges of interest may be applied. The data may be resampled to facilitate efficient data processing.
    • 用于处理同步阵列地震数据的方法和系统包括从多个传感器获取同步的被动地震数据以获得同步的阵列测量。 将反向时间数据处理应用于同步阵列测量以获得与地下位置相关联的多个动态粒子参数。 这些动态粒子参数存储在一个表单中进行显示。 动态粒子参数的最大值可以解释为储层位置。 动态粒子参数可以是粒子位移值,粒子速度值,粒子加速度值或粒子压力值。 传感器可以是三分量传感器。 可以应用不同感兴趣范围的零相位频率滤波。 可以重新采样数据以促进有效的数据处理。
    • 10. 发明申请
    • Time reverse reservoir localization
    • 时间反向油藏定位
    • US20120014216A1
    • 2012-01-19
    • US13244615
    • 2011-09-25
    • Erik SaengerBrian SteinerStefan Schmalholz
    • Erik SaengerBrian SteinerStefan Schmalholz
    • G01V1/28
    • G01V1/28G01V1/301G01V2210/123G01V2210/51G01V2210/67G01V2210/679
    • A method and system for processing synchronous array seismic data includes acquiring synchronous passive seismic data from a plurality of sensors to obtain synchronized array measurements. A reverse-time data process is applied to the synchronized array measurements to obtain a plurality of dynamic particle parameters associated with subsurface locations. These dynamic particle parameters are stored in a form for display. Maximum values of the dynamic particle parameters may be interpreted as reservoir locations. The dynamic particle parameters may be particle displacement values, particle velocity values, particle acceleration values or particle pressure values. The sensors may be three-component sensors. Zero-phase frequency filtering of different ranges of interest may be applied. The data may be resampled to facilitate efficient data processing.
    • 用于处理同步阵列地震数据的方法和系统包括从多个传感器获取同步的被动地震数据以获得同步的阵列测量。 将反向时间数据处理应用于同步阵列测量以获得与地下位置相关联的多个动态粒子参数。 这些动态粒子参数存储在一个表单中进行显示。 动态粒子参数的最大值可以解释为储层位置。 动态粒子参数可以是粒子位移值,粒子速度值,粒子加速度值或粒子压力值。 传感器可以是三分量传感器。 可以应用不同感兴趣范围的零相位频率滤波。 可以重新采样数据以促进有效的数据处理。